Marvasi Massimiliano
Department of Natural Sciences, Faculty of Science and Technology, Middlesex University, The Burroughs, London, NW4 4BT, UK.
J Sci Food Agric. 2017 Mar;97(4):1065-1072. doi: 10.1002/jsfa.8117. Epub 2016 Dec 2.
Nitric oxide (NO) has emerged in the last 30 years as a key molecule involved in many physiological processes in plants, animals and bacteria. Current research has shown that NO can be delivered via donor molecules. In such cases, the NO release rate is dependent on the chemical structure of the donor itself and on the chemical environment. Despite NO's powerful signaling effect in plants and animals, the application of NO donors in agriculture is currently not implemented and research remains mainly at the experimental level. Technological development in the field of NO donors is rapidly expanding in scope to include controlling seed germination, plant development, ripening and increasing shelf-life of produce. Potential applications in animal production have also been identified. This concise review focuses on the use of donors that have shown potential biotechnological applications in agriculture. Insights are provided into (i) the role of donors in plant production, (ii) the potential use of donors in animal production and (iii) future approaches to explore the use and applications of donors for the benefit of agriculture. © 2016 Society of Chemical Industry.
在过去30年里,一氧化氮(NO)已成为参与植物、动物和细菌许多生理过程的关键分子。目前的研究表明,NO可通过供体分子传递。在这种情况下,NO的释放速率取决于供体本身的化学结构和化学环境。尽管NO在动植物中具有强大的信号传导作用,但目前NO供体在农业中的应用尚未实施,研究仍主要处于实验阶段。NO供体领域的技术发展正在迅速扩大范围,包括控制种子萌发、植物发育、成熟以及延长农产品保质期。在动物生产中的潜在应用也已得到确认。这篇简要综述聚焦于已显示出在农业中具有潜在生物技术应用的供体的使用。文中深入探讨了:(i)供体在植物生产中的作用;(ii)供体在动物生产中的潜在用途;(iii)未来探索供体用于农业并使其受益的使用方法和应用途径。© 2016化学工业协会